The Design

We utilized strong, lightweight materials with an adjustable fit for optimal comfort and performance. A dynamic joint system may enhance fluid movement in addition to helping athletes improve their technique by including sensors that provide real-time input on force and pressure. Additionally, researching personalized, 3D-printed components may offer tailored solutions for certain needs and preferences. A carbon fiber composite construction would be a feature of the perfect lower limb prosthetic for athletics, improving agility and decreasing tiredness. An adjustable footplate with variable stiffness enables athletes to adapt to diverse sports and terrains, while a responsive shock absorption system helps manage impact during high-intensity exercises. With the integration of smart technology—which includes sensors and AI-driven control mechanisms—athletes can obtain real-time performance data and adapt to changing situations. Using PCMs will reduce the amount of perspiration and unnecessary body heat, further promoting total comfortability within the design. Biomechanical efficiency, comfort, and adaptability will be given top attention in the design in order to enhance overall athletic performance.

Our Design was made to handle intense exercise, with a high performance, using lightweight materials like a carbon fiber composite which allows for prolonged use as carbon fiber is a lightweight material allowing for long distance running. In order to handle the diverse and brutal environment our team uses PCMs due to their unique property of temperature control.  One issue is that the user still has to use one leg for athletics and one leg for day to day activities, the solution would be to find a joint system that would allow for exercise and laid back time, at the same time.

 

Utilized elements/Design specifications

  1. Enhanced mobility: Integrate a dynamic foot design that prioritizes high energy-return, allowing for efficient energy storage and release during walking.
  2. Comfort and adaptability: Utilize advanced 3D scanning and printing technologies to create a custom-fit prosthetic for each patient, reducing the risk of discomfort. Choose materials that are not only durable but also soft and skin-friendly to prevent chafing.
  3. Durability: Incorporate high-strength materials known for their durability and strength, ensuring the prosthetic can withstand forces comparable to a natural limb.
  4. Advance Knee System: Integrate a knee system that offers high swing control, allowing for smooth and energy-efficient movement during the swing phase of the gait cycle.
  5. Socket Design: For our focus on athletics, we are opting for a Total Surface Bearing (TSB) socket known for its ability to evenly distribute weight over the residual limb, gait symmetry, and help with balance
  6. Actuation and Design Control: The chosen dynamic response energy foot, featuring a flexible keel that elastically deforms under pressure and subsequently recoils back, helping to aid in forward movement with its force